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Nerve Cells Can Work in Different Ways with Same Result, Says MU Researcher

July 8th, 2013

Collaborative research at the University of MO-Columbia may enable doctors to more accurately predict drugs that will be successful in treating certain neurological conditions. David Schulz, associate professor of biological sciences, worked with MU electrical and computer engineering professor Satish Nair to model nerve cell behavior in computer simulations.

Story by: MU News Bureau

Epilepsy, irregular heartbeats and other conditions caused by malfunctions in the body’s nerve cells, also known as neurons, can be difficult to treat. The problem is that one medicine may help some patients but not others. Doctors’ ability to predict which drugs will work with individual patients may be influenced by recent University of Missouri research that found seemingly identical neurons can behave the same even though they are built differently under the surface.

“To paraphrase Leo Tolstoy, ‘every unhappy nervous system is unhappy in its own way,’ especially for individuals with epilepsy and other diseases,” said David Schulz, associate professor of biological sciences in MU’s College of Arts and Science. “Our study suggests that each patient’s neurons may be altered in different ways, although the resulting disease is the same. This could be a major reason why doctors have difficulty predicting which medicines will be effective with specific individuals. The same problem could affect treatment of heart arrhythmia, depression and many other neurological conditions.”

It turns out, even happy neurons may be happy in their own way. Neurons have a natural electric activity that they are biologically programmed to maintain. If a neuron isn’t in that preferred state, the cell tries to restore it. However, contrary to some previous beliefs about neuron functioning, Schulz’s research found that two essentially identical neurons can reach the same preferred electrical activity in different ways.